Developing 3D bioprinting for organs-on-chips
Zhuhao Wu,
No information about this author
Rui Liu,
No information about this author
Ning Shao
No information about this author
et al.
Lab on a Chip,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Organs-on-chips
(OoCs)
can
be
directly
fabricated
by
3D
bioprinting
techniques,
which
enhance
the
structural
and
functional
fidelity
of
organ
models
broaden
applications
OoCs.
Language: Английский
Harnessing Intelligence from Brain Cells In Vitro
The Neuroscientist,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 13, 2025
Harnessing
intelligence
from
brain
cells
in
vitro
requires
a
multidisciplinary
approach
integrating
wetware,
hardware,
and
software.
Wetware
comprises
the
themselves,
where
differentiation
induced
pluripotent
stem
offers
ethical
scalability;
hardware
typically
involves
life
support
system
setup
to
record
activity
deliver
stimulation
cells;
software
is
required
control
process
signals
coming
going
cells.
This
review
provides
broad
summary
of
foundational
technologies
underpinning
these
components,
along
with
outlining
importance
technology
integration.
Of
particular
that
this
new
ability
extend
beyond
traditional
methods
assess
primarily
survival
spontaneous
neural
cultures.
Instead,
focus
returns
core
function
tissue:
neurocomputational
information
respond
accordingly.
Therefore,
also
covers
work
that,
despite
relatively
early
state
current
technology,
has
provided
novel
meaningful
understandings
field
neuroscience
opening
exciting
avenues
for
future
research.
Language: Английский
Human-based complex in vitro models: their promise and potential for rare disease therapeutics
Frontiers in Cell and Developmental Biology,
Journal Year:
2025,
Volume and Issue:
13
Published: Jan. 27, 2025
Rare
diseases
affect
a
small
percentage
of
an
individual
country’s
population;
however,
with
over
7,000
in
total,
rare
represent
significant
disease
burden
impacting
up
to
10%
the
world’s
population.
Despite
this,
there
are
no
approved
treatments
for
almost
95%
diseases,
and
existing
cost-intensive
patients.
More
than
70%
genetic
nature,
patient-specific
mutations.
This
calls
need
have
personalised
preclinical
models
that
can
lead
effective,
speedy,
affordable
therapeutic
options.
Complex
vitro
(CIVMs),
including
those
using
induced
pluripotent
stem
cells
(iPSCs),
organoids,
organs-on-chips
emerging
as
powerful
human-based
pre-clinical
systems
capacity
provide
efficacy
data
enabling
drugs
move
into
clinical
trials.
In
this
narrative
review,
we
discuss
how
CIVMs
providing
insights
biomedical
research
on
diseases.
We
also
these
being
used
trials
develop
Finally,
propose
recommendations
human
relevant
could
be
leveraged
increase
translatability
basic,
applied
nonclinical
outcomes
field
therapeutics
developed
well
middle-and
low-income
countries.
Language: Английский
Drugs and cellular dynamics in tumor microenvironment using microphysiological systems
Folia Pharmacologica Japonica,
Journal Year:
2025,
Volume and Issue:
160(2), P. 97 - 101
Published: Feb. 28, 2025
がん周囲の微小環境は,がん微小環境(tumor
microenvironment:TME)と呼ばれ,免疫細胞やがん関連線維芽細胞,さらには血管内皮細胞やペリサイトなどが含まれる.かつて,これらの非がん細胞は,がんの疾患においては傍観者と思われてきたが,これらの細胞や分泌される分子群が,がんの進行において重要な役割を果たすことが明らかになってきた.TMEの複雑性を紐解き,その機序を明らかとするために,生体模倣システム(microphysiological
system:MPS)が注目されている.MPSは「ヒトまたは動物由来の特定の組織の特徴を生体外でモデリングするための微小スケールの細胞培養プラットフォーム」と定義され,TMEの化学的または物理的な条件を制御し,がん細胞,がん周囲の細胞の応答を分析可能である.近年,がんのMPSに脈管系を組み込む技術が進展し,これによりTME内での物質や細胞の動態をより正確に評価できるようになってきている.本稿では,脈管系を含む最新のがんのMPSの研究報告と,TMEの物質・細胞動態の研究成果に関して概説する.
Advancements of paper-based microfluidics and organ-on-a-chip models in cosmetics hazards
Sanidhya Pai,
No information about this author
A Binu,
No information about this author
G. S. Lavanya
No information about this author
et al.
RSC Advances,
Journal Year:
2025,
Volume and Issue:
15(13), P. 10319 - 10335
Published: Jan. 1, 2025
Different
detection
approaches
for
monitoring
adulterants/hazards
present
in
cosmetics
using
paper-based
devices
and
organ-on-a-chip.
Language: Английский
3D cell culture models: how to obtain and characterize the main models
M.M. Abdurakhmanova,
No information about this author
Anastasiia Leonteva,
No information about this author
N. S. Vasilieva
No information about this author
et al.
Vavilov Journal of Genetics and Breeding,
Journal Year:
2025,
Volume and Issue:
29(2), P. 175 - 188
Published: April 10, 2025
For
many
years,
the
gold
standard
in
study
of
malignant
tumors
has
been
vitro
culture
tumor
cells,
vivo
xenografts
or
genetically
modified
animal
models.
Meanwhile,
three-dimensional
cell
models
(3D
cultures)
have
added
to
arsenal
modern
biomedical
research.
3D
cultures
reproduce
tissue-specific
features
tissue
topology.
This
makes
them
relevant
terms
differentiation,
metabolism
and
development
drug
resistance.
Such
are
already
being
used
by
research
groups
for
both
basic
translational
research,
may
substantially
reduce
number
studies,
example
field
oncological
In
current
literature,
classified
according
technique
their
formation
(with
without
a
scaffold),
cultivation
conditions
(static
dynamic),
as
well
cellular
organization
function.
organization,
divided
into
“spheroid
models”,
“organoids”,
“organs-ona-chip”
“microtissues”.
Each
these
its
own
unique
features,
which
should
be
taken
account
when
using
particular
model
an
experiment.
The
simplest
spheroid
floating
spherical
aggregates.
An
organoid
is
more
complex
model,
self-organizing
structure
formed
from
stem
cells
(SCs)
capable
self-renewal
differentiation
within
model.
Organ-on-a-chip
chips
microfluidic
systems
that
simulate
dynamic
physical
biological
processes
found
organs
tissues
.
By
combining
different
types
single
structure,
spheroids
organoids
can
act
basis
microtissue
–
hybrid
imitating
specific
phenotype
containing
tissuespecific
extracellular
matrix
(ECM)
components.
review
presents
brief
history
culture.
It
describes
main
characteristics
perspectives
use
“organ-on-a-chip”
“microtissues”
immune
oncology
solid
tumors.
Language: Английский
Advanced In Vitro Models for Preclinical Drug Safety: Recent Progress and Prospects
Dileep G. Nair,
No information about this author
Ralf Weiskirchen
No information about this author
Current Issues in Molecular Biology,
Journal Year:
2024,
Volume and Issue:
47(1), P. 7 - 7
Published: Dec. 26, 2024
The
majority
of
drugs
are
typically
orally
administered.
journey
from
drug
discovery
to
approval
is
often
long
and
expensive,
involving
multiple
stages.
A
major
challenge
in
the
development
process
drug-induced
liver
injury
(DILI),
a
condition
that
affects
liver,
organ
responsible
for
metabolizing
most
drugs.
Traditionally,
identifying
DILI
risk
has
been
difficult
due
poor
correlation
between
preclinical
animal
models
vitro
systems.
Differences
physiology
humans
animals
or
cell
lines
contribute
failure
many
programs
during
clinical
trials.
use
advanced
systems
closely
mimic
human
physiology,
such
as
organ-on-a-chip
like
gut-liver-on-a-chip,
can
be
crucial
improving
efficacy
while
minimizing
toxicity.
Additionally,
adaptation
these
technologies
potential
significantly
reduce
both
time
cost
associated
with
obtaining
safe
approvals,
all
adhering
3Rs
principle
(replacement,
reduction,
refinement).
In
this
review,
we
discuss
significance,
current
status,
future
prospects
platforms,
specifically
models,
supporting
discovery.
Language: Английский